GEO-MATHEMATICAL MODELLING OF SPATIAL-ECOLOGICAL COMPLEX SYSTEMS: AN EVALUATION

Assessing the complexity of landscapes is one of the top research priorities for Physical Geography and Ecology. This paper aims at a methodological evaluation of the discrete and analytical mathematical models hitherto available for quantitative assessments of spatial ecological complex systems. Th...

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Main Author: Fivos Papadimitriou
Format: Article
Language:English
Published: Lomonosov Moscow State University 2010-03-01
Series:Geography, Environment, Sustainability
Subjects:
Online Access:https://ges.rgo.ru/jour/article/view/266
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spelling doaj-66d10b0e6b244545a442525fcdeeac312021-07-28T21:10:04ZengLomonosov Moscow State UniversityGeography, Environment, Sustainability2071-93882542-15652010-03-0131678010.24057/2071-9388-2010-3-1-67-80262GEO-MATHEMATICAL MODELLING OF SPATIAL-ECOLOGICAL COMPLEX SYSTEMS: AN EVALUATIONFivos PapadimitriouAssessing the complexity of landscapes is one of the top research priorities for Physical Geography and Ecology. This paper aims at a methodological evaluation of the discrete and analytical mathematical models hitherto available for quantitative assessments of spatial ecological complex systems. These models are derived from cellular automata and nonlinear dynamics. They describe complex features and processes in landscapes, such as spatial ecological nonlinear interactions, unpredictability and chaos, self-organization and pattern formation. Beginning with a distinction between two basic types of spatial ecological complexity (structural, functional), and after reviewing the quantitative methods so far available to assess it, the areas where the major challenges (and hence, difficulties) for future research arise are identified. These are: a) to develop measures of structural spatial-ecological complexity, b) to find Lyapunov functions for dynamical systems describing spatial interactions on the landscape (and related attractors), and c) to combine discrete time and continuous spatial data and models.https://ges.rgo.ru/jour/article/view/266geographical modellingnonlinear dynamical systemscomplex geo-systemslyapunov functionscellular automata
collection DOAJ
language English
format Article
sources DOAJ
author Fivos Papadimitriou
spellingShingle Fivos Papadimitriou
GEO-MATHEMATICAL MODELLING OF SPATIAL-ECOLOGICAL COMPLEX SYSTEMS: AN EVALUATION
Geography, Environment, Sustainability
geographical modelling
nonlinear dynamical systems
complex geo-systems
lyapunov functions
cellular automata
author_facet Fivos Papadimitriou
author_sort Fivos Papadimitriou
title GEO-MATHEMATICAL MODELLING OF SPATIAL-ECOLOGICAL COMPLEX SYSTEMS: AN EVALUATION
title_short GEO-MATHEMATICAL MODELLING OF SPATIAL-ECOLOGICAL COMPLEX SYSTEMS: AN EVALUATION
title_full GEO-MATHEMATICAL MODELLING OF SPATIAL-ECOLOGICAL COMPLEX SYSTEMS: AN EVALUATION
title_fullStr GEO-MATHEMATICAL MODELLING OF SPATIAL-ECOLOGICAL COMPLEX SYSTEMS: AN EVALUATION
title_full_unstemmed GEO-MATHEMATICAL MODELLING OF SPATIAL-ECOLOGICAL COMPLEX SYSTEMS: AN EVALUATION
title_sort geo-mathematical modelling of spatial-ecological complex systems: an evaluation
publisher Lomonosov Moscow State University
series Geography, Environment, Sustainability
issn 2071-9388
2542-1565
publishDate 2010-03-01
description Assessing the complexity of landscapes is one of the top research priorities for Physical Geography and Ecology. This paper aims at a methodological evaluation of the discrete and analytical mathematical models hitherto available for quantitative assessments of spatial ecological complex systems. These models are derived from cellular automata and nonlinear dynamics. They describe complex features and processes in landscapes, such as spatial ecological nonlinear interactions, unpredictability and chaos, self-organization and pattern formation. Beginning with a distinction between two basic types of spatial ecological complexity (structural, functional), and after reviewing the quantitative methods so far available to assess it, the areas where the major challenges (and hence, difficulties) for future research arise are identified. These are: a) to develop measures of structural spatial-ecological complexity, b) to find Lyapunov functions for dynamical systems describing spatial interactions on the landscape (and related attractors), and c) to combine discrete time and continuous spatial data and models.
topic geographical modelling
nonlinear dynamical systems
complex geo-systems
lyapunov functions
cellular automata
url https://ges.rgo.ru/jour/article/view/266
work_keys_str_mv AT fivospapadimitriou geomathematicalmodellingofspatialecologicalcomplexsystemsanevaluation
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